FP100R07N3E4 Infineon 650V 100A IGBT Module

Content last revised on March 8, 2026

FP100R07N3E4 Infineon 650V 100A EconoPIM™ 3 IGBT Module

Introduction to High-Density Power Integration

Empowering Compact Systems with TRENCHSTOP™ IGBT4 Technology

The FP100R07N3E4, manufactured by Infineon, is a highly integrated IGBT Module designed within the EconoPIM™ 3 housing. This Power Integrated Module (PIM) combines a three-phase diode rectifier, a three-phase inverter stage, a brake chopper, and an integrated NTC thermistor into a single, compact footprint. By leveraging TRENCHSTOP™ IGBT4 technology, this module offers a superior balance between switching speed and conduction losses, making it a staple for modern industrial automation. What defines the FP100R07N3E4 efficiency? Low switching losses via TRENCHSTOP™ IGBT4 and optimized thermal packaging. How does the integrated NTC help? It provides real-time thermal monitoring for enhanced module protection.

Core Specifications: 650V | 100A | TRENCHSTOP™ IGBT4

Key Engineering Benefits: Significant footprint reduction in inverter designs and enhanced thermal reliability through optimized copper baseplate contact. For space-constrained industrial drives requiring high thermal robustness, this 650V 100A PIM is the industrial benchmark.

Key Parameter Overview

Decoding the Specs for Integrated PIM Efficiency

Download the FP100R07N3E4 datasheet for detailed specifications and performance curves.

Application Scenarios & Value

Optimizing System Footprint in Industrial Drives

Engineers often face the challenge of reducing the physical dimensions of Variable Frequency Drives (VFD) while maintaining thermal overhead. The FP100R07N3E4 addresses this by integrating the entire power stage. In a factory automation scenario, specifically for Servo Drive applications, the low Vce(sat) of 1.55V directly reduces conduction losses during high-torque operations, which minimizes the heat load on the system heatsink.

The integrated brake chopper is particularly valuable for handling regenerative energy during rapid deceleration of motor loads. For systems that require higher current handling or different topologies, the FS150R07A2E3 offers an alternative configuration. Furthermore, this 650V module is ideally suited for 230V to 400V AC line inputs, whereas for 690V industrial line applications, a module like the FP100R12KT4 would be necessary to meet voltage margin requirements.

In accordance with IEC 61800-3 standards, the module's stable switching characteristics help in designing more effective EMI filters. The high integration level also simplifies the PCB layout, reducing parasitic inductance that can lead to damaging voltage spikes. Understanding these nuances is a key part of the field engineers handbook when diagnosing system-level reliability.

Technical Deep Dive

Thermal Management and the EconoPIM Packaging Advantage

Effective Thermal Management is the cornerstone of long-term reliability in power electronics. Heatsinking for an IGBT Module is like a radiator for a high-performance engine; it ensures the silicon junctions stay within safe limits even during peak torque demands. The FP100R07N3E4 utilizes a copper baseplate that facilitates a low junction-to-case thermal resistance (Rthjc). This design ensures that the heat generated during high-frequency switching is efficiently shunted away from the IGBT chips.

The TRENCHSTOP™ IGBT4 architecture itself is a marvel of semiconductor physics. The trench structure is like a multi-lane highway, allowing more current to flow through a smaller silicon cross-section with lower "congestion" or losses compared to older planar designs. This allows for an increased power density within the EconoPIM™ 3 package. This high level of integration is why IGBT modules backbone remains critical in the push for more efficient industrial motor controllers.

Furthermore, the Emitter Controlled 4 diode technology integrated into the module provides a soft recovery characteristic. This "softness" is essential for minimizing electromagnetic interference and reducing stress on the motor insulation during high-speed switching transitions (dv/dt). For engineers, this translates to a more robust Gate Drive design and reduced overall system complexity. Technical details on VCE(sat) calculation can further assist in thermal modeling.

Frequently Asked Questions

Engineering Queries Regarding the FP100R07N3E4

• What is the primary benefit of the TRENCHSTOP™ IGBT4 technology in this module?
  It provides a significant reduction in switching and conduction losses, allowing the module to operate at higher frequencies or with smaller heatsinks compared to previous IGBT generations.
• How does the integrated NTC thermistor assist in system design?
  The NTC allows the system controller to monitor the internal temperature of the module in real-time. This is critical for implementing over-temperature protection and for dynamic adjustment of the switching frequency to maintain thermal equilibrium.
• Is the FP100R07N3E4 suitable for 480V AC input systems?
  While the 650V rating is common for 230V or lower 400V AC applications, engineers typically prefer 1200V rated modules for standard 480V AC industrial lines to maintain a sufficient safety margin against line surges and transient overvoltages.

Strategic Outlook for Industrial Design

The FP100R07N3E4 represents a mature and highly reliable solution for designers prioritizing integration and thermal efficiency. By consolidating the rectifier, inverter, and protection components into a standardized EconoPIM™ 3 package, Infineon enables a streamlined manufacturing process for OEM engineers. For further technical support or to verify current availability, please contact our technical sales team for updated specifications.